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Blockchain Dedicated Server

Server Location Processor RAM Storage Bandwidth Price Server Detail
Amsterdam Intel Atom C2350 1.7 GHz 2c/2t 4 GB DDR3 1× 1 TB (HDD SATA) 1 Gbps Unmetered Fair Usage Bandwidth $24.08 Configure Server
Paris Intel Atom C2350 1.7 GHz 2c/2t 4 GB DDR3 1× 128 GB (SSD SATA) 1 Gbps Unmetered Fair Usage Bandwidth $29.64 Configure Server
Los Angeles Intel Xeon E3-1230 v2 3.3 GHz 4c/8t 16 GB DDR3 1× 256 GB (SSD SATA) 1 Gbps Unmetered Fair Usage Bandwidth $39.01 Configure Server
VIA Nano U2250 1.6Ghz 2 GB 1x 160 GB Unlimited $44.10 Configure Server
Hong Kong AMD EPYC 7402 (1 Virtual Core) 2.8 GHz 1c/1t 4 GB DDR4 1× 75 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $44.20 Configure Server
Dallas AMD EPYC 7402 (1 Virtual Core) 2.8 GHz 1c/1t 4 GB DDR4 1× 75 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $44.85 Configure Server
Montreal Intel Xeon E3-1245 v2 3.4 GHz 4c/8t 32 GB DDR3 3× 2 TB (HDD SATA) 100 Mbps Unmetered Fair Usage Bandwidth $45.27 Configure Server
Sao Paulo AMD EPYC 7443P (1 Virtual Core) 2.8 GHz 1c/1t 4 GB DDR4 1× 75 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $47.45 Configure Server
Tokyo AMD EPYC 7443P (1 Virtual Core) 2.8 GHz 1c/1t 4 GB DDR4 1× 75 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $48.10 Configure Server
Bursa AMD EPYC 7443P (1 Virtual Core) 2.8 GHz 1c/1t 4 GB DDR4 1× 75 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $51.35 Configure Server
Helsinki Intel Xeon Gold 6240L (1 Virtual Core) 2.6 GHz 1c/1t 4 GB DDR4 1× 75 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $60.25 Configure Server
Oslo AMD EPYC 7702P (1 Virtual Core) 2 GHz 1c/1t 4 GB DDR4 1× 75 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $64.89 Configure Server
Lisbon Intel Celeron N3150 1 GHz 4c/4t 4 GB DDR3 1× 240 GB (SSD SATA) 1 Gbps Unmetered Fair Usage Bandwidth $68.11 Configure Server
London AMD EPYC 7401P (2 Virtual Cores) 2 GHz 2c/2t 8 GB DDR4 1× 125 GB (SSD NVMe) 1 Gbps Unmetered Fair Usage Bandwidth $74.15 Configure Server
Frankfurt Intel Xeon D-1520 2.2 GHz 4 cores 32 GB DDR4 2× 2 TB (HDD SATA) 1 Gbps Unmetered Fair Usage $75.93 Configure Server
Dusseldorf Intel Atom S1260 2 GHz 2 cores 8 GB DDR3 1× 500 GB (HDD SATA) 1 Gbps Unmetered Fair Usage $80.77 Configure Server
New York City Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 16 GB DDR3 2× 1 TB (HDD SATA) 1 Gbps 10 TB 1 Gbps Guaranteed Bandwidth $87.29 Configure Server
Seattle Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 16 GB DDR3 2× 1 TB (HDD SATA) 1 Gbps 10 TB 1 Gbps Guaranteed Bandwidth $89.68 Configure Server
San Francisco Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 16 GB DDR3 2× 1 TB (HDD SATA) 1 Gbps 10 TB 1 Gbps Guaranteed Bandwidth $90.88 Configure Server
Phoenix Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 16 GB DDR3 2× 1 TB (HDD SATA) 1 Gbps 10 TB 1 Gbps Guaranteed Bandwidth $92.07 Configure Server
Miami Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 16 GB DDR3 2× 1 TB (HDD SATA) 1 Gbps 10 TB 1 Gbps Guaranteed Bandwidth $93.27 Configure Server
St. Petersburg Intel Core 2 Duo E8400 3 GHz 2 cores 6 GB DDR3 2× 500 GB (HDD SATA) 1 Gbps 30 TB $98.70 Configure Server
Washington, D.C. Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 16 GB DDR3 2× 1 TB (HDD SATA) 1 Gbps 10 TB 1 Gbps Guaranteed Bandwidth $99.25 Configure Server
Valencia Intel Celeron J1900 2 Ghz 4 cores 8 GB DDR3 1× 120 GB (SSD SATA) or 1× 1 TB (HDD SATA) 1 Gbps 65 TB Fair Usage $101.46 Configure Server
Chicago Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 16 GB DDR3 2× 1 TB (HDD SATA) 1 Gbps 10 TB 1 Gbps Guaranteed Bandwidth $101.64 Configure Server
Vilnius Intel Celeron G1840T 2.5 GHz 2c/2t 8 GB DDR3 2× 1 TB (HDD SATA) 100 Mbps Unmetered Fair Usage Bandwidth $102.90 Configure Server
Toronto Intel Xeon E3-1230 v3 3.3 GHz 4c/8t 8 GB DDR3 1× 1 TB (HDD SATA) 1 Gbps 2 TB Bandwidth $118.12 Configure Server
Zlin Intel Dual Core Atom 1.60GHz 4 GB 1x 1500 GB Unlimited $123.07 Configure Server

Introduction

Blockchain Dedicated Servers are very popular nowadays. As the name indicates, a blockchain is a chain of blocks that contain information. This technique was originally described in 1991 by a group of researchers and was originally intended to timestamp digital documents so that it is not possible to backdate them or to tamper with them. Almost like a notary. However, it went by mostly unused until Satoshi Nakamoto adopted it in 2009 to create a digital cryptocurrency Bitcoin. A blockchain server as the Dedicated Server of South America is a distributed ledger that is completely open to anyone. Blockchain Servers such as servers of South America have interesting properties once some data has been recorded inside a blockchain server; it becomes very difficult to change it.

How does Blockchain work?

If we take a closer look at a block, we will see that each block contains some data, the hash of the block and the hash of the previous block. The data that is stored inside a block depends on the type of blockchain. The Bitcoin Dedicated Server Blockchain for example stores the details about a transaction here, such as the sender, receiver, and the number of coins. A Dedicated Server of Blockchain also has a hash. You can compare a hash to a fingerprint. It identifies a block and all of its components in its unique way, just like a fingerprint. Once a block is created, its hash is calculated. Changing something inside the block will cause the hash to change. Therefore, in other words, hashes are very useful when you want to detect changes to blocks. If the fingerprint of a block changes, it is no longer the same block. The third element inside each block is the hash of the previous block. This effectively creates a chain of blocks and with the help of this technique, Dedicated Server from Blockchain is so secure.

Suppose we have a chain of three blocks. As mentioned earlier each block has a hash and the hash of the previous block. So block number 3 points to block number 2 and block number 2 points to block number 1. Every first block in any Dedicated Server in Blockchain is a bit special; it cannot point to the previous blocks because it is the first one. This block is called the genesis block. Now suppose the hash of the second block is tampered with or changed. In turn, that will make block 3 and all the following blocks invalid because they no longer store the valid hash of the previous block. So changing a single block will make all the following blocks invalid.

However, using a hash is not enough to prevent tampering. Computers these days are very fast and can calculate hundreds of thousands of hashes per second. You could effectively tamper a block and recalculate all the hashes of other blocks to make your Blockchain Server valid again. So to reduce the effort, blockchains servers like the Dedicated Server of South America have something called proof-of-work. It is a mechanism that slows down the creation of new blocks. In Bitcoin's case, it takes about 10 minutes to calculate the required proof of work and add a new block to the chain. This mechanism makes it very hard to tamper with the blocks because if you tamper with one block you will need to recalculate the proof of work for all the following blocks. So the security of a blockchain comes from its creative use of hashing and the proof of work mechanism. This also varies with the type of server such as San Francisco Dedicated Server But there is one more way that blockchains secure themselves and that is by being distributed. Instead of using a central entity to manage the chain, blockchains use a peer-to-peer (P2P) network and everyone is allowed to join. When someone joins this network, he gets a full copy of the blockchain. The node can use this to verify that everything is still in order.

In this situation, if someone creates a new block the block is sent to everyone on the network. Each node then verifies the block to make sure that it has not been tampered with. If everything checks out each node adds this block to their Dedicated Server of Blockchain Data Centre. All the nodes in this network create consensus. They agree about what blocks are valid and which are not. Blocks that are tempered will be rejected by other nodes in the network. So to successfully tamper with a Server of Blockchain, you will need to tamper with all the blocks on the chain, redo the proof of work for each block and take control of more than 50% of the peer-to-peer network. Only then will everyone else will accept your tempered block. Therefore, this is almost impossible to do. Blockchains are also constantly evolving. One of the most recent developments is the creation of smart contracts. The contracts are simple programs that are stored on the blockchain and can be used to automatically exchange coins based on certain conditions. The creation of blockchain technology with several servers such as the Dedicated Server of San Francisco peaked a lot of people’s interest. Soon others realized that the technology could be used for other things like storing medical records, creating a digital notary are even collecting taxes. Hence with the help of several servers such as Server of San Francisco, various works and transactions can be done. 

Cryptocurrency

One might wonder if there is an easier way to complete transactions without having to deal with online wallets, banks, and third-party applications. A bank transaction could fail in many ways. It could be due to technical issues at the bank, one of their accounts getting hacked, the daily transfer limit being exceeded and sometimes additional charges like high transfer charges associated with transferring money online.
To solve these problems the concept of cryptocurrency came into existence. Cryptocurrencies are a form of digital or virtual currency that runs on the technology of blockchain servers like Dedicated Server from Springfield. Cryptocurrencies are immune to counterfeiting; they do not require a central authority and are protected by strong and complex encryption algorithms. In this market of thousands of cryptocurrencies like Litecoin, Ethereum, and so on but one of them reigned supreme that is Bitcoin. If a person sends Bitcoin to another person as a transaction a record is created in the form of the block. The transaction details between them are permanently inscribed in this block. This record also holds the number of Bitcoins each person owns. If some more transactions are made by another person to that same person then following this more blocks will be created with their respective information. Now, these blocks are linked to each other as each of them takes reference from the previous one for the number of Bitcoins each person owns. This chain of records or blocks is called a Ledger, and this ledger is shared with each person that took part in the transaction which acts as a Public Distributed Ledger.

A hacker will not be able to alter the data in the blockchain because each user has a copy of the ledger and also the data within the blocks are encrypted by complex algorithms. All of this is made possible with the help of Blockchain Technology as with the help of the Server of Springfield. Blockchain can be well described as a collection of records linked with each other, which is strongly resistant to alteration and is also protected using cryptography.
Every user in the Bitcoin network has two keys a public key and a private key. The public key is the address that everyone in the network knows of like an E-mail address of a user. The private key is a unique address that only the user knows more like a password. If a person passes several bitcoins to another person along with his and the other person's unique wallet address with a hashing algorithm. These details are encrypted with a high algorithm and the first person’s private key. This is done to digitally sign the transaction. Now, this transaction is transmitted across the world using the second person’s public key and this message can only be decrypted with the second person’s private key.

Different cryptocurrencies use different hashing algorithms. Bitcoin uses the SHA256 algorithm. These transactions and several other different ones happen all across the world. These transactions are validated and then added block by block. The people that validate these blocks are called Miners. To validate and arrange these blocks in the blockchain, Miners have to solve a mathematical equation. The miners who do so are rewarded with the respective amount of bitcoins. This process is called Proof-of-Work. This is one of the several ways blockchains servers like the Dedicated Server of Springfield are used in real-life applications.

Features of Blockchain

  • Solves issues with the current banking system
  • Public distributed ledger

  • Encryption safety

  • Proof of Work

  • Mining

Why Us

All over the internet, we might find several options regarding Bitcoins and Blockchains. But you must know which service to trust and which one should be trusted. Buying any service with the help of Bitcoins is super easy and very safe but at the same time, one should be familiar with the server they are providing. At Hosting Ultraso you will get our all-time customer support i.e. 24/7 and trustworthy services. With our distribution network all across the world, you will never face any issues regarding your service and if you do we are here to help you. With different server options, we have a lot to offer to you so you should consider working with. Also anyhow, if you are not satisfied with our service you can cancel your subscription within 48 hours. 

With all safety precautions and measures, we are here to make your life easier.

 

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